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This study demonstrates that soft wearable back-support devices with adjustable stiffness can significantly improve postural stability against trip-like perturbations, particularly during standing tasks. While the devices enhance reactive balance control in healthy subjects, future work must focus on personalized stiffness optimization and validation in high-risk populations to realize their potential for fall prevention.
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Impact of a Soft Wearable Back-Support Device on Postural Stability during Trip-Like Perturbations

arXiv2 min read

arXiv:2606.02888v1 Announce Type: new Abstract: The effectiveness of a soft wearable back-support device in enhancing postural stability was investigated under trip-like perturbations using two experimental paradigms: perturbed standing and perturbed walking. Healthy subjects completed trials under three different back-support conditions: no device, device worn with low stiffness, and device activated with high stiffness. Whole-body stability was quantified using the minimum Margin of Stability (MOS) at the point of maximal instability. Results demonstrated increased MOS during device use, indicating enhanced postural stability. In standing, MOS increased significantly with device stiffness, whereas in walking, both device conditions improved MOS relative to no device but did not differ significantly from each other. These findings highlight the potential of soft wearable back-support devices with adjustable stiffness to improve reactive balance control against external perturbations, with important implications for fall prevention. Future research should explore personalized stiffness optimization and evaluate efficacy in populations at elevated risk of falls.

Abstract:The effectiveness of a soft wearable back-support device in enhancing postural stability was investigated under trip-like perturbations using two experimental paradigms: perturbed standing and perturbed walking. Healthy subjects completed trials under three different back-support conditions: no device, device worn with low stiffness, and device activated with high stiffness. Whole-body stability was quantified using the minimum Margin of Stability (MOS) at the point of maximal instability. Results demonstrated increased MOS during device use, indicating enhanced postural stability. In standing, MOS increased significantly with device stiffness, whereas in walking, both device conditions improved MOS relative to no device but did not differ significantly from each other. These findings highlight the potential of soft wearable back-support devices with adjustable stiffness to improve reactive balance control against external perturbations, with important implications for fall prevention. Future research should explore personalized stiffness optimization and evaluate efficacy in populations at elevated risk of falls.

Robotics (cs.RO)

arXiv:2606.02888 [cs.RO]

(or arXiv:2606.02888v1 [cs.RO] for this version)

https://doi.org/10.48550/arXiv.2606.02888 arXiv-issued DOI via DataCite (pending registration)

Full text under the publisher's open licence · 165 words

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